Published March 13, 2026 | Version v2

Biogeophysical Admittance Spectroscopy (BAS): A Unified Multimodal Framework for Reagent-Free Solid-State Diagnostic Support

  • 1. ROR icon University of Carabobo
  • 2. UPTLL Juana Ramirez

Description

This paper presents the unified BAS (Biogeophysical Admittance Spectroscopy) theoretical framework with integrated BCO (BAS Central Orchestrator), a technology designed specifically to aid in diagnostics through rapid triage in vulnerable populations. The system integrates an extensible N-domain architecture (N ≥ 10) distributed across a multi-node ESP32-S3 cluster. We detail the biological and physical-mathematical foundations of each domain (Optical, Dielectric, Inductive, Electrochemical, Volatile, Photonic, Thermodynamic, Autofluorescence, Rheological, Magnetohydrodynamic), along with the distributed hardware architecture, BAS-Link communication protocol, physics-informed inference algorithms (PINN), and uncertainty budgets. The fundamental objective is to provide diagnostic technological sovereignty, demonstrating the viability of a low-cost portable distributed system capable of reducing health inequity through accessible point-of-care diagnostic support with hardware resilience and scalability. 

Notes

Este artículo presenta el marco teórico unificado BAS (Espectroscopia de Admitancia Biogeofísica) con el BCO (Orquestador Central BAS) integrado, una tecnología diseñada específicamente para ayudar en el diagnóstico mediante un triaje rápido en poblaciones vulnerables. El sistema integra una arquitectura extensible de N-dominios (N10) distribuida a través de un clúster multinodo ESP32-S3. Detallamos los fundamentos biológicos y físico-matemáticos de cada dominio (Óptico, Dieléctrico, Inductivo, Electroquímico, Volátil, Fotónico, Termodinámico, Autofluorescencia, Reológico, Magnetohidrodinámico), junto con la arquitectura de hardware distribuido, el protocolo de comunicación BAS-Link, los algoritmos de inferencia informados por la física (PINN) y los presupuestos de incertidumbre. El objetivo fundamental es proporcionar soberanía tecnológica diagnóstica, demostrando la viabilidad de un sistema distribuido portátil de bajo costo capaz de reducir la inequidad en salud a través de un apoyo diagnóstico accesible en el punto de atención con resiliencia de hardware y escalabilidad.

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Working paper: 10.5281/zenodo.18932950 (DOI)
Preprint: 10.5281/zenodo.19665616 (DOI)

References

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